Acoustic Microscopy of Ceramic Surfaces

K. Yamanaka, Y. Enomoto, Y. Tsuya
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引用次数: 26

Abstract

Mechanical properties of ceramic surfaces such as hard- ness, indentation fracture toughness, and wear resistance are largely influenced by the behavior of small flaws and defects, such as micro- cracks, delaminations, voids, and inclusion located beneath the sur- face. Acoustic microscopy is particularly suited to study this phenom- enon because it can image microscopic subsurface features without sectioning. Furthermore, it has been revealed that the velocity and at- tenuation of the leaky surface wave can be measured; these are ex- pected to have close correlation with the mechanical properties of ma- terials. New results on the nondestructive observation of subsurface cracks of Si,N, and ZrO, and delamination of TIN coatings introduced by Vickers indentation or sliding contacts are presented. The mecha- nism of delamination and wear of these materials is discussed. It is shown that the velocity and attenuation of the leaky surface wave of TIN coatings and sintered AlzOn actually have close correlation with the hardness and wear resistance of these materials. The reason for these correlations is also discussed.
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陶瓷表面声学显微镜
陶瓷表面的机械性能,如硬度、压痕断裂韧性和耐磨性在很大程度上受表面下的小缺陷和缺陷的影响,如微裂纹、分层、空洞和夹杂。声学显微镜特别适合研究这种现象,因为它可以成像微观的地下特征而无需切片。此外,还揭示了泄漏表面波的速度和衰减可以测量;预计这些与材料的力学性能密切相关。本文介绍了Si、N和ZrO的亚表面裂纹的无损观察以及由维氏压痕或滑动接触引起的TIN涂层分层的新结果。讨论了这些材料的分层和磨损机理。结果表明,TIN涂层和烧结AlzOn泄漏表面波的速度和衰减实际上与材料的硬度和耐磨性密切相关。本文还讨论了产生这些相关性的原因。
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